Asymptotic mean value formulas for parabolic nonlinear equations
Pablo Blanc, Fernando Charro, Juan J. Manfredi, Julio D. Rossi

TL;DR
This paper characterizes viscosity solutions to nonlinear parabolic equations, including Monge-Ampère types, using asymptotic mean value formulas linked to probabilistic interpretations and game theory.
Contribution
It introduces a novel asymptotic mean value characterization for viscosity solutions of nonlinear parabolic PDEs, connecting PDE theory with probabilistic and game-theoretic approaches.
Findings
Viscosity solutions are characterized by asymptotic mean value formulas.
Formulas have a probabilistic interpretation via Dynamic Programming Principles.
Applicable to a range of nonlinear parabolic equations, including Monge-Ampère.
Abstract
In this paper we characterize viscosity solutions to nonlinear parabolic equations (including parabolic Monge-Amp\`ere equations) by asymptotic mean value formulas. Our asymptotic mean value formulas can be interpreted from a probabilistic point of view in terms of Dynamic Programming Principles for certain two-player, zero-sum games.
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Taxonomy
TopicsGeometry and complex manifolds · Geometric Analysis and Curvature Flows · Mathematical Dynamics and Fractals
